🇨🇭 Certified Supplier · Switzerland

Premium metal powders
for industrial 3D printing

Metal powders for 3D-printing technologies, developed and certified by Caladrius SA, a Swiss partner specialising in advanced materials.

9 Alloys

Aluminium, titanium, steel, cobalt chrome and copper

Traceability

Complete technical data sheets for every batch

Critical sectors

Aerospace, medical, watchmaking, precision engineering

Swiss Medtech Swiss Engineering
Development & quality control

Materials developed and tested in controlled environments to ensure consistency, traceability and high performance.

Our materials supplier

Metal powders for high-performance applications

For metal powders, we are the exclusive partner of Caladrius SA for the Canton of Ticino, a Swiss company specialising in the development and supply of custom metal powders, metal bars and carbon-based nanomaterials.

Caladrius supports customers in Switzerland and Europe in meeting the highest standards required by demanding sectors such as aerospace, medical, watchmaking, electronics, sports and precision engineering — the same fields in which many of our customers operate.

Aerospace Medical Watchmaking Electronics Sports Precision engineering
Technical data sheets

Available alloys

Chemical composition, powder properties, LPBF printing parameters and mechanical properties for each material.

AlSi10Mg

Aluminium alloy

Characteristics

Cast aluminium alloy, heat-treatable and high in silicon.

  • Low density and excellent strength-to-weight ratio
  • Corrosion resistance
  • Thermal conductivity
  • Weldability and formability
  • Dynamic load capacity

Application

Aluminium alloy widely used in automotive and aerospace thanks to its excellent strength-to-weight ratio, good thermal conductivity and corrosion resistance. Its excellent weldability makes it particularly suitable for additive manufacturing.

Chemical composition (wt.%)

AlSiMgMnCuFeZnNiON
Bal.9.0-10.50.2-0.45≤0.40≤0.05≤0.20≤0.10≤0.05≤0.05≤0.05

Powder properties

Particle size distribution20-63 µm
Hall flow test≤ 65 s/50g
Apparent density≥ 1.4 g/cm³
Tap density≥ 1.6 g/cm³
D10 / D50 / D9018-24 / 32-45 / 60-63 µm
Sphericity≥ 85%

LPBF printing parameters

PreheatingLayer thicknessLaser powerScan speedHatch spacing
40 °C30 µm370 W1300 mm/s190 µm

Mechanical properties

ISO 6892-1, LPBF-processed samples · heat treatment: 250°C / 2h, air cooling

ConditionDirectionYield strength Rp0.2 [MPa]Tensile strength Rm [MPa]Elongation A [%]
As printedXY264 ± 4440 ± 29.2 ± 0.3
As printedZ233 ± 1453 ± 28.2 ± 0.3
Heat treatedXY223 ± 2331 ± 511.7 ± 0.3
Heat treatedZ223 ± 4341 ± 79.2 ± 0.3

Ti-6Al-4V Grade 23 ELI

Titanium alloy

Characteristics

α+β titanium alloy.

  • Low density and high strength-to-weight ratio
  • Oxidation stability
  • Corrosion resistance
  • Extra-low interstitial elements
  • High toughness and weldability
  • Biocompatibility

Application

Premium titanium alloy (Extra Low Interstitial), essential for critical aerospace and medical components thanks to its exceptional strength-to-weight ratio, corrosion resistance and biocompatibility. Used for aircraft structural components, slide rails, landing gear, compressor blades and discs for propulsion systems, and turbine blades operating under high stress, temperature or corrosive conditions.

Chemical composition (wt.%)

TiAlVFeCONH
Bal.5.5-6.753.5-4.5≤0.3≤0.08≤0.1≤0.03≤0.012

Powder properties

Particle size distribution15-53 µm
Hall flow test≤ 35 s/50g
Apparent density≥ 2.3 g/cm³
Tap density≥ 2.6 g/cm³
D10 / D50 / D9018-22 / 30-40 / 50-56 µm
Sphericity≥ 90%

LPBF printing parameters

Layer thicknessLaser powerScan speedHatch spacing
60 µm350 W1000 mm/s140 µm

Mechanical properties

ISO 6892-1, LPBF-processed samples · heat treatment: 900°C / 3h, furnace cooling

ConditionYield strength Rp0.2 [MPa]Tensile strength Rm [MPa]Elongation A [%]
As printed1109 ± 251218 ± 38.8 ± 0.8
Heat treated919 ± 7974 ± 915.1 ± 0.4

Ti 5313

High-temperature titanium

Characteristics

Multi-component near-α titanium alloy for high temperatures.

  • Excellent mechanical properties
  • High-temperature performance
  • Thermal stability
  • Crack propagation resistance
  • Creep resistance

Application

Used for rotating aircraft-engine components, metal-matrix composites, high-pressure compressor blades and parts exposed to temperatures between 650°C and 750°C for short periods.

Chemical composition (wt.%)

TiAlSnZrMoCONH
Bal.5-63-42-30-1≤0.04≤0.09≤0.01≤0.01

Powder properties

Particle size distribution15-53 µm
Hall flow test≤ 32 s/50g
Apparent density≥ 2.4 g/cm³
Tap density≥ 2.7 g/cm³
D10 / D50 / D9015-25 / 30-42 / 56-67 µm
Sphericity≥ 90%

LPBF printing parameters

PreheatingLayer thicknessLaser powerScan speedHatch spacing
150 °C30 µm380 W1000 mm/s60 µm

Mechanical properties at temperature

ISO 6892-1 & ISO 6892-2, LPBF-processed samples · heat treatment: 950°C/2h air + 700°C/4h furnace

Temperature [°C]Yield strength Rp0.2 [MPa]Tensile strength Rm [MPa]Elongation A [%]
Room temperature≥ 920≥ 980≥ 13
600≥ 450≥ 600≥ 12
650≥ 360≥ 550≥ 10
700≥ 300≥ 480≥ 12
800≥ 130≥ 260≥ 35

Creep resistance

Temperature [°C]Load [MPa]Time [h]Elongation A [%]
40040021015
40043521013
7002006.6344

TA15

High-temperature titanium

Characteristics

Near-α titanium alloy.

  • High-temperature performance
  • Thermal stability
  • Excellent mechanical properties
  • Corrosion resistance

Application

Used in aerospace applications, aircraft engines and medical instruments.

Chemical composition (wt.%)

TiAlMoVZrCONH
Bal.5.5-7.00.5-2.00.8-2.51.5-2.5≤0.01≤0.011≤0.02≤0.01

Powder properties

Particle size distribution15-53 µm
Hall flow test≤ 35 s/50g
Apparent density≥ 2.3 g/cm³
Tap density≥ 2.6 g/cm³
D10 / D50 / D9018-22 / 30-40 / 50-56 µm
Sphericity≥ 85%

LPBF printing parameters

PreheatingLayer thicknessLaser powerScan speedHatch spacing
100 °C60 µm300 W1100 mm/s140 µm

Mechanical properties at temperature

ISO 6892-1 & ISO 6892-2, LPBF-processed samples · heat treatment: 850°C / 2h, furnace cooling

TemperatureYield strength Rp0.2 [MPa]Tensile strength Rm [MPa]Elongation A [%]
Room temperature927 ± 361014 ± 1413.0 ± 2.0
500°C642 ± 13744 ± 919.6 ± 2.6

316L

Stainless steel

Characteristics

Austenitic chromium-nickel-molybdenum stainless steel.

  • Excellent corrosion resistance
  • High ductility and toughness
  • Good biocompatibility
  • Excellent weldability

Application

Austenitic stainless steel widely used for components requiring high corrosion resistance, biocompatibility and ductility. Used in medical, food, chemical and marine applications, as well as for mechanical components and functional prototyping in additive manufacturing.

Chemical composition (wt.%)

FeCrNiMoMnSiPSCN
Bal.16.0-18.010.0-14.02.0-3.0≤2.0≤1.0≤0.045≤0.03≤0.03≤0.10

Powder properties

Particle size distribution15-53 µm
Hall flow test≤ 25 s/50g
Apparent density≥ 4.0 g/cm³
Tap density≥ 4.75 g/cm³
D10 / D50 / D9018-24 / 30-40 / 55-58 µm
Sphericity≥ 80%

LPBF printing parameters

Layer thicknessLaser powerScan speedHatch spacing
40 µm285 W950 mm/s100 µm

Mechanical properties

ISO 6892-1, LPBF-processed samples · heat treatment: solution treatment 850°C / 30 min, air cooling + ageing 525°C / 4h, air cooling

DirectionYield strength Rp0.2 [MPa]Tensile strength Rm [MPa]Elongation A [%]
XY38163145.5
Z36959851.5

17-4PH

Martensitic stainless steel

Characteristics

Precipitation-hardening (PH) martensitic stainless steel.

  • High mechanical strength and hardness
  • Good corrosion resistance
  • Heat-treatable to optimise properties
  • Good dimensional stability

Application

Martensitic stainless steel combining high mechanical strength with good corrosion resistance. Used in aerospace, oil & gas, medical and precision engineering for structural components, shafts, gears and tooling that require high mechanical performance.

Chemical composition (wt.%)

FeCrNiCuNbMnSiCSPN
Bal.15.0-17.03.0-5.03.0-5.00.15-0.45≤0.1≤0.1≤0.07≤0.03≤0.04≤0.10

Powder properties

Particle size distribution15-53 µm
Hall flow test≤ 25 s/50g
Apparent density≥ 3.9 g/cm³
Tap density≥ 4.65 g/cm³
D10 / D50 / D9018-24 / 30-40 / 55-58 µm
Sphericity≥ 85%

LPBF printing parameters

Layer thicknessLaser powerScan speedHatch spacing
40 µm290 W900 mm/s110 µm

Mechanical properties

ISO 6892-1, LPBF-processed samples · heat treatment: 1040°C / 1.5h, furnace cooling to 600°C, hold at 600°C / 4.5h, air cooling

ConditionDirectionYield strength Rp0.2 [MPa]Tensile strength Rm [MPa]Elongation A [%]
As printedXY82293620.5
As printedZ77696817.5
Heat treatedXY75194015.5
Heat treatedZ7194214

CoCrW

Cobalt-chrome alloy

Characteristics

High-performance cobalt-chrome-tungsten alloy.

  • Excellent wear resistance
  • High mechanical strength and high-temperature resistance
  • Good corrosion resistance
  • Biocompatibility

Application

Alloy used in medical/dental and industrial applications requiring high resistance to wear, corrosion and high temperatures, such as prosthetic components and precision tooling.

Chemical composition (wt.%)

CoCrWSiFeMnON
60.52891.5≤0.5≤0.25≤0.03≤0.002

Powder properties

Particle size distribution10-30 µm
Hall flow test≤ 19 s/50g
Apparent density≥ 4.7 g/cm³
Tap density≥ 5.7 g/cm³
D10 / D9014.1 / 36.8 µm

LPBF printing parameters

Layer thicknessLaser powerScan speedLaser spotHatch spacing
25 µm270 W800 mm/s150 µm70 µm
35 µm290 W900 mm/s170 µm90 µm

Mechanical properties

ISO 6892-1, LPBF-processed samples · advanced heat treatments: 950°C / 40 min, furnace cooling, or 1150°C / 60 min, furnace cooling

DirectionYield strength Rp0.2 [MPa]Tensile strength Rm [MPa]Elongation A [%]
1104314027.6
2771122118.6

C10100

Pure copper 99.95%

Characteristics

High-conductivity pure copper.

  • Extremely high electrical and thermal conductivity
  • Excellent ductility and machinability
  • Good corrosion resistance
  • 99.95% purity

Application

Pure copper used for components requiring maximum electrical and thermal conductivity, such as inductors, heat exchangers, connectors and power-electronics components.

Chemical composition (wt.%)

CuPbFeAsSbBiCSON
Bal.≤0.005≤0.004≤0.002≤0.002≤0.001≤0.002≤0.001≤0.016≤0.005

Powder properties

Particle size distribution53-150 µm
Hall flow test≤ 15.5 s/50g
Apparent density≥ 4.40 g/cm³
Tap density≥ 5.25 g/cm³
D10 / D50 / D9051-54 / 88-91 / 144-147 µm

CuSn10

Bronze alloy

Characteristics

Copper-tin bronze alloy.

  • Good resistance to wear and friction
  • Excellent castability and machinability
  • Good thermal conductivity
  • Corrosion resistance, including in marine environments

Application

Bronze alloy used for components subject to friction and wear, such as bushings, bearings and gears, thanks to its good wear resistance and the self-lubricating properties typical of bronze.

Chemical composition (wt.%)

CuSnPbZnNiFeON
88.0-90.09.0-11.0≤0.5≤0.5≤0.5≤0.15≤0.05≤0.01

Powder properties

Particle size distribution15-53 µm
Hall flow test≥ 16 s/50g
Apparent density≥ 4.6 g/cm³
D10 / D50 / D9019.25 / 36.50 / 58.19 µm
Supply

Packaging formats

The powders are available in different packaging formats depending on the required quantity and traceability.

Sacchetto stand-up

Stand-up pouch

Ideal for small batches and samples

Contenitore tondo grande

Large round container

For large quantities and ongoing supply

The actual packaging may differ from the illustration: the manufacturer reserves the right to change its design without notice, with no impact on product quality or characteristics.

Buy Caladrius powders

Would you like to purchase one of these alloys?

Solidform is Caladrius’ exclusive partner for the Canton of Ticino: contact us for a quote on availability, quantities and delivery times for the alloy you need.

Request a quote →

Solidform contacts

+41 (0)91 630 10 40
info@solidform.ch
Via Sacerdote Caroni 2, 6862 Rancate
Materials supplied by Caladrius SA · 71 Freiburgstrasse,
3280 Murten (CH)

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